Why energy coordination is becoming a critical semiconductor capability

Semiconductor manufacturing depends on enormous volumes of reliable power, and that makes energy coordination far more than a utility issue. Grid supply, renewable energy, or clean energy projects, backup systems, and efficiency upgrades all depend on field work that has to be executed, documented, and shared accurately. As fabs expand and uptime and energy security becomes harder to protect, energy coordination is moving closer to the center of semiconductor operations.

Key insights

• Advanced fabs consume so much electricity that power reliability directly affects yield, uptime, and production losses.
  
• Powering a semiconductor facility depends on coordinated field execution, with inspections, site work, and documentation driving infrastructure readiness.
  
• Backup power readiness is established through inspection records, maintenance history, and test results captured in the field.
  
• Decarbonization efforts add new layers of field activity across solar power installation, asset tracking, inspection, and maintenance.
  
• Energy coordination depends on field data that can move quickly and accurately across teams, systems, and operational decisions.

The chip industry runs on power. Massive, uninterrupted, always-on power. A single advanced semiconductor fabrication plant (fab) can consume as much electricity as a small city, and any disruption lasting more than a few seconds can destroy billions of dollars in product. The equipment doesn’t pause, and the processes don’t wait. When the lights flicker, wafers become scrap. Effective coordination ensures that grid supply, backup systems, and decarbonization efforts are physically executed and documented to maintain 100% uptime.

Semiconductor manufacturer TSMC’s expansion in Arizona illustrates how that dependency is changing. For advanced manufacturers, the challenge lies in coordinating the infrastructure, assets, inspections, and field work required to make power reliable, resilient, and increasingly sustainable. In that environment, energy coordination becomes a strategic capability.

Bridge the gap between utility supply and on-site execution

TSMC doesn’t build power plants. Instead, the manufacturer relies on local utility providers to supply the massive baseline electricity their operations require. In Arizona, APS (Arizona Public Service) is constructing the substation and infrastructure needed to deliver approximately 200 megawatts for the first phase of TSMC’s Phoenix-area facilities.

That arrangement may sound straightforward on paper, but it creates significant operational complexity. Utility crews must survey and audit sites, assess soil conditions, install transformers, run transmission lines, test equipment, and document work, while standardizing workflows across multiple locations. Project managers coordinate contractors, inspectors verify that components meet specifications, and stakeholders across engineering, procurement, safety, and leadership depend on timely updates to keep work moving.

At this scale, field execution and information flow become inseparable. A transformer inspection in the field has to reach a project dashboard in the office. Soil test results may trigger the next construction phase. Safety observations need to reach the right decision-makers before work continues. Traditional workflows may be adequate for routine commercial connections, but they become fragile when the goal is energizing a 200-megawatt semiconductor facility.

Decarbonization adds another layer of coordination

Baseline power is only part of the challenge. Across the semiconductor industry, manufacturers are under growing pressure to reduce the carbon intensity of their operations in response to climate change concerns, evolving environmental policies, and broader clean energy goals. Companies are responding through a mix of on-site solar deployments, renewable energy procurement, and power-saving technologies. TSMC is one prominent example: it became the first semiconductor company to join RE100, committing to 100% renewable energy use by 2040. Achieving that goal requires coordinating on-site solar power installations, purchasing renewable energy credits, and deploying power-saving technology across facilities.

On-site solar is a good example of how decarbonization goals become operational coordination challenges in the field. What appears simple at the strategy level becomes complex in practice. Teams need to survey potential installation areas, assess structural capacity and shading, plan electrical routing, install panels and inverters, document as-built conditions, and complete inspections at multiple stages. Every panel, inverter, and connection point becomes a managed asset that must be tracked over time.

This is where energy coordination becomes an operational discipline rather than an abstract goal. Renewable projects generate field data at every stage, from siting and installation to inspection and maintenance. The organizations that handle those workflows well can move faster, document compliance more reliably, and maintain a clearer view of system performance over time.

Resilience matters as much as sustainability

Renewables address the power mix, but they do not remove the need for resilience and energy security. Semiconductor fabrication depends on continuity, which is why fabs maintain substantial backup power systems to support critical operations during grid outages. Even a short interruption can ruin production batches and create outsized financial losses.

Backup systems introduce their own field requirements. Diesel generators must be tested on schedule. Fuel deliveries have to be coordinated and verified. Emissions compliance monitoring must be documented for compliance. Transfer switches need inspection so operators know systems will perform when an actual outage occurs.

In semiconductor manufacturing, backup power resilience depends on disciplined field execution and reliable maintenance records. Documented inspections and test runs establish whether backup systems can perform when needed. Without a clear record of maintenance and testing, readiness is hard to verify and harder to trust.

Efficiency programs also depend on physical execution

The same pattern applies to demand reduction. At semiconductor scale, lowering energy consumption can be as important as securing clean supply, stabilizing long-term energy supply, and improving the use of natural resources across facilities. Like most semiconductor manufacturers, TSMC invests in power-saving technologies across its facilities, including compressed air systems, coolant recycling, and waste heat recovery through warm water reuse.

But efficiency gains do not materialize from strategy documents alone. Teams still have to assess existing systems, install upgrades, commission equipment, and verify performance without disrupting continuous manufacturing. That work often happens during narrow maintenance windows, which raises the cost of delays and bad information. Managers need visibility into what has been assessed, what has been upgraded, and where bottlenecks remain.

In other words, energy efficiency is also a field coordination problem.

Energy coordination as an operational capability

TSMC’s Arizona expansion is one example of a broader industry shift. Energy now sits closer to the center of semiconductor operations. As fabs grow larger, more power-intensive, and more dependent on uptime, utilities, facilities, sustainability, maintenance, compliance, and executive planning start to overlap.

Field work sits at the center of semiconductor energy coordination. Work on substations, solar power systems, backup assets, and efficiency upgrades generates the operational record that other teams use to track progress, manage risk, and keep projects moving. Fragmented workflows weaken that record and slow execution.

The semiconductor industry has always treated precision inside the fab as a competitive necessity. Increasingly, the same is true outside the fab, across the energy infrastructure and field operations that keep manufacturing running.

Field operations for energy infrastructure

Energy infrastructure programs generate constant field activity, from inspections and installations to maintenance and compliance work. Fulcrum helps teams capture accurate field data, standardize workflows, and move information into enterprise systems with fewer delays and handoff problems. Schedule a demo to see how Fulcrum supports complex field operations.